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Throughfall and stemflow chemical dynamics of Satoyama, a traditional secondary forest system under threat in Japan

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Abstract

The term 'Satoyama' refers to traditional and unique secondary forests in Japan that occupy intermediate zones between villages ('sato') and hills or mountains ('yama'). Satoyama landscapes help sustain ecosystem services and the diversity of secondary natural environments. As Japan relies more heavily on foreign timber imports, the traditional role of Satoyama in providing forest products has diminished, and this has led to their abandonment and poor management. The chemical behavior of cations, anions, and dissolved organic matter in throughfall and stemflow from one such threatened Satoyama system in central Japan was investigated. From autumn to winter, the atmospheric deposition of sulfates and nitrates was 2.5–6.0 times higher compared to the amounts in summer due to the intrusion of air masses from the Asian continent. The dissolved organic matter in the throughfall and stemflow was composed mainly of humic substances and protein derivatives. The deposition fluxes of dissolved organic carbon from throughfall (7.31–10.1 g m−2 a−1) and stemflow (1.79–3.84 g m−2 a−1) in this study were within ranges seen in temperate forests in previous studies. The deposition flux of sulfates was low compared to that in other forest types because canopy interaction was lower, suggesting higher canopy openness than in primary forests. If a shift from a mixed species Satoyama forest to a conifer-dominated forest occurs after the mass mortality of oak, the deposition flux of dissolved organic carbon and K+ might decrease by 33% and 62%, respectively, while NO3 might increase by 20%. In the near future, the degradation of Satoyama landscapes might change the levels of dissolved organic carbon and nitrogen loads, resulting in imbalances in river-ocean linkages affecting forested catchments and aquatic ecosystems in Japan.

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Acknowledgements

We thank Michiko Kato, Hiroki Yamamoto, Mayu Inoue, Ayane Kawaguchi, Kentaro Onishi, and Moe Hirano for their help with rain sampling and LAI measurements. Meteorological Data Explorer (METEX) was provided by Dr. Zeng Jiye, (Centre for Global Environmental Research National Institute for Environmental Studies).

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SA: Conceptualization, methodology, formal analysis, writing original draft, supervision; FS: Conceptualization, supervision; YW: Conceptualization, supervision, data quality checking; WAJ: Formal analysis; MO: Data processing; NS: Data processing; YW: Data processing; LML: Data processing, English review; AK: Investigation, formal analysis; YS: Investigation, Formal analysis; NF: Investigation, formal analysis.

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Correspondence to Satoshi Asaoka.

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The authors declare that they have no known competing financial interests or personal relationships that could have appeared to influence the work reported in this paper.

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Project funding: This study was supported in part by the Super Science High School Program (3036) provided by the Japan Science and Technology Agency

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Corresponding editor: Yanbo Hu.

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Asaoka, S., Sumikawa, F., Watanabe, Y. et al. Throughfall and stemflow chemical dynamics of Satoyama, a traditional secondary forest system under threat in Japan. J. For. Res. 33, 813–826 (2022). https://doi.org/10.1007/s11676-021-01429-2

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